| Literature DB >> 33658744 |
Rakesh Padhan1, K P Prabheesh2.
Abstract
Through a survey of the literature on the economics of the coronavirus (COVID-19) pandemic, this study explores the effects of the pandemic and proposes potential policy directions to mitigate its effects. Our survey reveals that adverse economic effects have been observed due to the COVID-19 pandemic in addition to fatalities. Furthermore, the survey indicates the need for greater coordination at national and international levels. This study concludes by suggesting coordination among monetary, macroprudential, and fiscal policies (trio) to mitigate the adverse economic effects of COVID-19. Finally, this study explores potential directions for future research.Entities:
Keywords: COVID-19; Fiscal policy; Macroprudential policy; Monetary policy; Pandemics
Year: 2021 PMID: 33658744 PMCID: PMC7906538 DOI: 10.1016/j.eap.2021.02.012
Source DB: PubMed Journal: Econ Anal Policy ISSN: 0313-5926
Empirical literature on the effects of COVID-19.
| Authors | Objective | Countries and sample period | Methodology | Empirical findings | Channel/remarks |
|---|---|---|---|---|---|
| Corporate performance in the energy sector. | China | Difference in Difference Modeling, | Negative | Goodwill impairment | |
| US partisan conflict index | US | MIDAS | Mitigate political polarization | US political environment | |
| Crude oil return and stock return relation | US | Time-varying VAR | Negative | Unaltered economic performance | |
| Stock market and oil price return relation | Net oil-importing | Summary Statistics | Positive | Signal for future demand contraction | |
| Stock market and oil price return relation | Net oil-exporting | DCC-GARCH | Positive | Restricted portfolio diversification | |
| Pandemic and oil price relation | Global | Granger Causality | Inconsistent intertemporal CAPM | Oil price cannot be ignored | |
| Oil price news on oil price | Global | Narayan–PoppTest | Bigger effect on oil price | Negative oil price news dominates | |
| Crude oil price | Global | Fractional Integration | Inefficient market | Transitory shock | |
| Oil price volatility evolution | Global | Narayan–PoppTest | Positive | Cases and death contributes | |
| Change in investor sentiment and crude oil futures | Global | Gregory and Hansen cointegration | Structural change | Change in crude oil price elasticity | |
| Impact on Greek energy firms | Greece | Event Study | Influenced the returns of majority of the listed firms | Market efficiency hypothesis | |
| Reaction of oil and gas producer | US | EGARCH | Heterogeneous reaction | Firm specific attributes | |
| Relationship between Japanese Yen and crude oil price futures | Japan | Descriptive Statistics | Limited evidence that oil prices predict the Yen | No time-varying predictability | |
| Exchange rate return and volatility prediction | 25 Countries | Summary Statistics | Better predictive power over volatility | Disease outbreak channel | |
| Nexus between exchange rate and interest rate | BRIICS | Toda–Yamamoto Causality Test | Improve predictability of exchange rate | Forward looking investors | |
| Predicting energy market volatility | Global | OLS | Market uncertainty good predictor | Portfolio diversification | |
| Reaction of financial market | 9 countries | EGARCH | Global market free fall | Global spread of volatility | |
| Impact on exchange rate persistence to shocks | Japan | Time-varying NarayanPopp Unit root Test | Resistance of Yen to shocks has changed | Transitory effect | |
| Bubble type behavior of exchange rate | Japan, Canada, Europe and Britain | Bubble test | Increased in bubble activity | Market become relatively inefficient | |
| Japanese yen and stock return relation | Japan | Narayan–PoppUnit root Test | Depreciation leads to gain in Japanese stock returns | Stronger relationship | |
| Relationship between stock prices and exchange rate | BRIICS | DCC-GARCH | Relationship strengthened | Significant risk transfer | |
| Effect of government response to stocks | G7 | ARCH | Positive | Lockdowns most effective | |
| Sentiment generation and equity volatility | World and US | Asymmetric GARCH | Panic news generate volatility | Panic news contribute to volatility | |
| Equity market, a real human costs and government response | 23 Emerging | GARCH | Decreasing cases, | Flatter curve reduce uncertainty | |
| Al-Awadi et al. (2020) | Stock market outcomes | China | Panel Regression | Significant impact of rising cases and death | Negative effect on stock returns |
| Impact on Asian Stock markets | Asia | Fractal Integration | Transitory effect on Japan and permanent effect on China and Korea | Temporary and Permanent shocks | |
| Impact on emerging stock markets | 26 Emerging | Pooled OLS | Negative impact and began to taper off by mid-April | Higherst in emerging Asia and lowest in emerging Europe | |
| Impact of COVID-19 news on 8 stock markets | US, Asia and Europe | Descriptive Statistics | Do not find sensitiveness of stock returns to news | Strong positive impact on the stock market volatility | |
| Document the stock market index’s negative response | 14 stock index | Regression | Stock market elasticity is −0.028 | Do not panic message | |
| Analyzes the ESG risks | World | Pooled Regression | Investors preferred low ESG risks funds | Low ESG positively affect flows | |
| Commonality in Volatility | 5 Asian Economies | Descriptive Statistics | More prominent in case of Singapore | Stronger commonality | |
| Occurrence of financial contagion | World, China and G7 | VERMA DCC-GARCH | Increase in stock return correlation | Higher role of financial contagion | |
| Mapping risks | Global | Correlation | Substantial increase in market risks | Need of global policy coordination | |
| Government intervention and | 67 Countries | Summary Statistics | Non-pharmaceutical interventions increase volatility | Role of information campaign and public event cancellation | |
| Stock market reaction to the WHO and Federal Reserve announcement | Developed and emerging | Event Study Approach | Negative shock to global stock markets | More shock to emerging markets and small firms | |
| Hedging potential of Asia-Pacific Islamic stocks | 15 Countries | GARCH based Unit root Test | Low hedging effectiveness | Role of global factor | |
| Bitcoin as safe heaven or risky heaven | Global | Value at Risk | Do not act as safe heaven | Bitcoin with S&P500 | |
| Fear sentiment on Bitcoin dynamics | Global | VAR | Fear sentiment exacerbates | Bitcoins fails as safe heaven | |
| Bitcoin’s performance to hedge equity risk | Global | Dynamic correlation | Bitcoin performed poorly in hedging the tail risk | Unpredictable and uncertain dynamic correlation | |
| Testing Bitcoin and Ethereum as safe heaven | Global | DCC | Negative effect with stock return and support safe heaven | Ethereum as better safe heaven than bitcoin | |
| Cryptocurrency as hedging | Global | MFDFA | Positive impact on efficiency | Cryptocurrency become more efficient | |
| Contagion effect on stock market | China | Dynamic Correlation | Volatility relationship evolve significantly | Development of a new product | |
| Effect on herding behavior in the stock market | Australia | Cross-section absolute deviation model | COVID-19 increases the herding behavior | Manifestation of herding behavior during crisis | |
| Compilation of accounting index | China | Big Data Portrait Analysis | Industries significantly affected except basic industry | Service sector significantly affected | |
| Market performance of industries | China | Event Study Approach | Transportation, mining, electricity, hearting and environment affected | Manufacturing, IT, Education and Health Care remains less affected | |
| Construct global fear index & predictability | OECD & BRICS | Descriptive Statistics | Good predictor of performance | Improve forecast performance | |
| Stock market reaction to real time | 25 Countries | Event Analysis | Market overreacts to unexpected news | No uniformity in travel ban | |
| Firm level cash holdings | China | Difference in Difference Method | Positive impact for serious impact industries | Rising firms’ cash holdings | |
| Indian financial markets | India | Markov-Switching VAR | Negative | Severe than demonization and GST | |
| Household investment decision | China | Linear Probability | Household with infected loss confidence and change in investment | Household financial decision | |
| Economic activity | China | Difference in Difference Method | Manufacturing industries highest negative effect | Smaller firms experience more 30% decline | |
| Impact of economic uncertainty | US | Wavelet Coherence Analysis | Affects the sectoral volatility more than global financial crisis | More affect than global financial crisis | |
| Corporate performance | China | Propensity Score Matching | Negative | Association between pandemic and firm performance | |
| Labor force participation | 134 Countries | Regression | Negative | High uncertainty avoidance index | |
| Market reaction | China | Event Study | More intense effect on industries with vulnerability to virus and high institutional investors | Effect depends on the financial structure of industries | |
| Investor’s reaction to different date announcement | 75 Countries | Descriptive Statistics | Negative impact on stock returns. | Depends on level of freedom | |
| Insurance Market | China, 29 Provinces | Panel Regression | Negative | Importance of level of social security and personal insurance | |
| Trade connectedness and future trade forecast | 15 Countries | Trade Network Analysis | Drastic reduction | Decline in trade until December 2020 | |
| Macro-financial variables and its resilience | China | Time–FrequencyAnalysis | Business and financial cycle in contraction phase | Extraordinary macroeconomic policies needed | |
| Household consumption | China | Summary Statistics | Significant decline in household consumption | Rural households less affected | |
| Effect on Turkish diesel consumption volatility | Turkey | GARCH Type Models | High volatility pattern | Dynamic volatility over time | |
| Impact on economic policy uncertainty | 5 Countries | Regression Analysis | Positive impact on economic policy uncertainty | Higher policy uncertainty | |
| Effect of demographic, socio-economic and public response | 10 Countries | Negative Binomial Regression | Demographic and government policies are significant determinant | Implementation of periodic lockdown | |
| Stock returns and portfolio flows causality | India | Narayan–PoppUnit root Test | Unidirectional causality from portfolio flows to stock returns | More exposure to portfolio flows volatility | |
| Impact on remittance inflows to Samoa | Samoa | Narayan–PoppUnit root test | Increased remittance from Australia and New Zealand | Declined from US | |
| Impact on domestic credit | China | Descriptive Statistics | Increase in confirmed case/death increase domestic credit | Positive response in both long-run and short-run | |
| Evaluates short-term labor market impact of COVID-19 containment | Germany | Diff-in-diff Regression | 60% increase from employment into unemployment | Shut down increased unemployment of 117,000 person | |
| Role in the course of inflation expectations and their volatility | US | GARCHX | Positive effect on inflation expectation and volatility | Risk of inflation expectation | |
This table covers various empirical issues addressed in the context of the COVID-19 with the authors, data coverage, empirical findings, and channels/remarks. Further, it covers the tabulation of all cited papers on the empirical literature on the COVID-19.
Fig. 1Stock indices of most affected countries.
This figure indicates the plots of stock indices of the most affected countries during the COVID-19. It covers stock indices for Argentina, Brazil, Colombia, India, Mexico, Peru, Russia, South Africa, Spain, and the USA. The blue line indicates the data period’s division into two such as pre and during the COVID-19 period. We can observe that the stock indices experience high volatility during the COVID-19 period. The period spans from January 1, 2019, to September 17, 2020. The stock data are collected from the CEIC Database. (For interpretation of the references to color in this figure legend, the reader is referred to the web version of this article.)
Fig. 2Exchange rate of most affected countries.
This figure indicates the plots of exchange rates of the most affected countries during the COVID-19. It covers stock indices for Argentina, Brazil, Colombia, India, Mexico, Peru, Russia, South Africa, Spain, and the USA. The period spans from January 1, 2019, to September 17, 2020. The exchange rate data are collected from the CEIC Database. The blue line indicates the data period’s division into two, such as the pre-COVID-19 and the COVID-19 period. The USA’s exchange rate is not considered as it is the benchmark currency for all other economies. We can observe that all the economies witness currency depreciation during the COVID-19 period. Most currencies witness depreciation till mid-April and show a slower improvement in the aftermath. However, the exchange rate of all economies witness high volatility except that of Argentina. Argentina indicates a steep increase in its exchange rate, implying continuous depreciation of the Argentinian Peso to the dollar in the COVID-19 period. In terms of recovery, all other economies’ currency is improving but far behind than the pre-COVID period. Surprisingly, Spain indicates tremendous appreciation after the mid-may period. (For interpretation of the references to color in this figure legend, the reader is referred to the web version of this article.)
Fig. 3Trends in oil prices.
The figure plots the oil prices from January 2, 2019, to September 15, 2020. WTI stands for West Texas Intermediate. The daily oil price is based on the West Texas Intermediate and collected from the Energy Information Administration. The blue line indicates the division of the data period into two such as pre and COVID-19 periods. We can observe that the oil prices during the COVID-19 period are lesser than the pre-COVID-19 period. (For interpretation of the references to color in this figure legend, the reader is referred to the web version of this article.)
Historical footprints on pandemics.
| Pandemic event | Start year | End year | Death |
|---|---|---|---|
| Black Death | 1331 | 1353 | 75,000,000 |
| Italian Plague | 1623 | 1632 | 280,000 |
| Great Plague of Seville | 1647 | 1652 | 2,000,000 |
| Great Plague of London | 1665 | 1666 | 100,000 |
| Great Plague of Marseille | 1720 | 1722 | 100,000 |
| First Cholera Pandemic | 1816 | 1826 | 100,000 |
| Second Cholera Pandemic | 1829 | 1851 | 100,000 |
| Russia Cholera Pandemic | 1852 | 1860 | 1,000,000 |
| Global Flu Pandemic | 1889 | 1890 | 1,000,000 |
| Sixth Cholera Pandemic | 1899 | 1923 | 800,000 |
| Encephalitis Lethargica Pandemic | 1915 | 1926 | 1,500,000 |
| Spanish Flu | 1918 | 1920 | 100,000,000 |
| Asian Flu | 1957 | 1958 | 2,000,000 |
| Hong Kong Flu | 1968 | 1967 | 1,000,000 |
| H1N1 Pandemic | 2009 | 2010 | 203,000 |
This table covers the historical record of large pandemic events with at least 100,000 deaths. We can observe that the Spanish Flu was the largest in terms of death, followed by Black Death.
Statistics on COVID-19 and countries’ ranking.
| Countries | Confirmed cases | No. of fatalities | Ranking 1 | Ranking 2 |
|---|---|---|---|---|
| United States of America | 6,530,324 | 194,434 | 1 | 1 |
| India | 5,118,253 | 83,198 | 2 | 3 |
| Brazil | 4,382,263 | 133,119 | 3 | 2 |
| Russia | 1,085,281 | 19,061 | 4 | 12 |
| Peru | 738,020 | 30,927 | 5 | 7 |
| Colombia | 728,590 | 23,288 | 6 | 11 |
| Mexico | 676,487 | 71,678 | 7 | 4 |
| South Africa | 653,444 | 15,705 | 8 | 13 |
| Spain | 614,360 | 30,243 | 9 | 9 |
| Argentina | 577,338 | 11,910 | 10 | 15 |
This table covers no. of confirmed cases and death due to COVID-19 till September 17, 2020. Ranking 1 is done on the basis of no. of confirmed cases, whereas ranking 2 is based on the no. of fatalities caused by this disease.